Intelligent prediction of wear life of automobile brake pad based on braking conditions

Author:

Cao Jingyu,Bao Jiusheng,Yin Yan,Yao Wang,Liu Tonggang,Cao Ting

Abstract

Purpose To avoid braking accidents caused by excessive wear of brake pad, this study aims to achieve online prediction of brake pad wear life (BPWL). Design/methodology/approach A simulated braking test bench for automobile disc brake was used. The correlation and mechanism between the three braking condition parameters of initial braking speed, braking pressure and initial braking temperature and the tribological performance were analyzed. The different artificial neural network (ANN) models of wear loss were discussed. Genetic algorithm was used to optimize the ANN model. The structure scheme of the online prediction system of BPWL was discussed and completed. Findings The results showed that the braking conditions were positively correlated with the wear loss, but negatively correlated with the friction coefficient. The prediction accuracy of back propagation (BP) ANN model was higher. The model was optimized by genetic algorithm, and the average deviation of prediction results was 4.67%. By constructing the online monitoring system of automobile braking conditions, the online prediction of BPWL based on the ANN model could be realized. Originality/value The research results not only have important theoretical significance for the study of BPWL but also have practical value for guiding the maintenance and replacement of automobile brake pads and avoiding the occurrence of braking accidents.

Publisher

Emerald

Subject

Surfaces, Coatings and Films,General Energy,Mechanical Engineering

Reference22 articles.

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2. Influence of braking conditions on wear performance of automobile semi-metal brake pad;Tribology,2021

3. Temperature distribution of treads and wear prediction during train emergency braking;China Mechanical Engineering,2021

4. Disc brakes for heavy vehicles: an experimental study of temperatures and cracks;Proceedings of the Institution of Mechanical Engineers Part D Journal of Automobile Engineering,2015

5. Optimization of performance and emission of compression ignition engine fueled with propylene glycol and biodiesel–diesel blends using artificial intelligence method of ANN-GA-RSM;Engineering Applications of Computational Fluid Mechanics,2021

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